Google Inc.

Other

Lu, Jiakang

Dixon, Michael

Smith, Zach B.

Gujjaru, Sunny Vardhan

Matthew G Neeley

Jay Dare Logue

Grant Michael Erickson

Michael D Dixon

Zachary B Smith

Osborne B Hardison

Richard J Schultz

Sunny P Gujjaru

Christopher Anthony Boross

Julian Shaw Kelly

Jiakang Lu

Sunny Vardhan Gujjaru

Christopher J Boross

Zach B Smith

Methods and apparatus for generating waveforms for application in a quantum computing device. In one aspect, a system includes a batch generator. The batch generator receives batched waveform data that includes waveform lists, where each waveform list references respective waveform data for unique waveforms in a respective experiment data set that defines a respective experiment. The batch generator further receives a subsequent experiment data set that defines a subsequent experiment. The batch generator determines, based on hardware parameter values included in the subsequent experiment data set, to expand the batched waveform data and expands the batched waveform data to include waveform data of the subsequent experiment data set. Batch instructions that are executable by waveform generator hardware cause the waveform generator hardware, upon execution, to select waveform data referenced in each waveform list and generate a waveform using the selected waveform data.

Batching waveform data

Methods and apparatus for generating waveforms for application in a quantum computing device. In one aspect, a system comprises a batch generator that receives experiment data sets defining respective experiments, each experiment data set comprising a set of waveforms defined by respective waveform data; determines unique waveforms; generates a corresponding set of respective waveform data that includes the respective waveform data for each unique waveform; generates, for each of the experiments, a waveform list that references the respective waveform data in the set of respective waveform data that corresponds to the waveforms in the set; and batch instructions that are executable by waveform generator hardware and that cause the waveform generator hardware to process each waveform list by selecting each referenced waveform data in the waveform list; and generate, in response to the selected waveform data, a waveform that is suitable for application in a quantum computing device.

Method and systems for controlling data remotely that includes connecting to a remote device within a fabric of smart devices. The remote device stores data locally. Controlling the data includes remotely controlling the data stored in the remote device from another device connected to the fabric by transmitting a message to the remote device. Moreover, the transmitted message includes a profile identifier that causes a data management entity of the remote device to perform an indicated data management action. Furthermore, the profile identifier identifies a data management profile, and the message includes a command tag that indicates the data management action to be performed.

Data management profile for a fabric network

Systems and methods are provided for efficient communication through a fabric network of devices in a home environment or similar environment. For example, an electronic device may efficiently control communication to balance power and reliability concerns, may efficiently communicate messages to certain preferred networks by analyzing Internet Protocol version 6 (IPv6) packet headers that use an Extended Unique Local Address (EULA), may efficiently communicate software updates and status reports throughout a fabric network, and/or may easily and efficiently join a fabric network.

Efficient communication for devices of a home network

Systems and methods relating to communication within a fabric network are presented. The fabric network includes one or more logical networks that enables devices connected to the fabric to communicate with each other using various profiles known to the devices. A device sending a message may follow a general message format to encode the message so that other devices in the fabric may understand the message regardless of which logical networks the devices are connected to. Within the message format, a payload of data may be included for the receiving device to forward, store, or process the message. The format and the contents of the payload may vary according to a header within the payload that indicates a profile and a message type within the profile. Using the profile and message type, the receiving devices may decode the message to process the message.

Fabric network

A method for updating a storage element may include receiving a first set of data from a first device that operating in a structure. The first set of data corresponds to a first data type interpretable by the first device. The method may also include translating the first set of data into a second set of data of a second data type interpretable by a second device operating in the structure but not by the first device. The first set of data and the second set of data are associated with a first portion of information associated with occupancy properties of the structure. The method may then include storing the second set of data in a storage element that includes a second portion information associated with the occupancy properties of the structure.

Systems and methods for updating data across multiple network architectures

Methods and systems for obtaining service directory information for a remote service including sending a service endpoint query to a remote service requesting a directory of locations within the service. In response to service endpoint query, obtaining the service directory information includes receiving a service endpoint response from the remote service in response to the service endpoint query when the service endpoint query is successful. The service endpoint response includes a directory length field that indicates a number of directory entries. The service endpoint response also includes one or more directory entries indicating one or more locations with the remote service as numerically limited by the directory length field.

Growing community of inventors

San Mateo, CA, United States of America

Matthew G Neeley